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dc.contributor.authorMirzayeva, D.M.
dc.contributor.authorAghayeva, S.A.
dc.contributor.authorKaplina, S.P.
dc.contributor.authorSlavov, L.
dc.contributor.authorGustova, M.V.
dc.contributor.authorTiep, N.V.
dc.contributor.authorTuan, P.L.
dc.contributor.authorMaletskii, A.V.
dc.contributor.authorDoroshkevich, A.S.
dc.contributor.authorThabethe, T.T.
dc.contributor.authorHasanov, K.M.
dc.contributor.authorKostov, L.K.
dc.contributor.authorMauyey, B.
dc.date.accessioned2024-12-27T10:46:42Z
dc.date.available2024-12-27T10:46:42Z
dc.date.issued2024
dc.identifier.otherdoi.org/10.62476/apr61514
dc.identifier.urihttp://rep.enu.kz/handle/enu/20557
dc.description.abstractThe provided study involves investigating chemical interactions in Leptothrix biomaterial through infrared spectroscopy. The analysis explores variations in chemical relationships based on the nature of chemical bonds and biomaterial coordinates. The primary chemical bonds identified in the biomaterial are associated with Fe-O vibrations and resonances of [OH] functional groups. Additionally, the study presents model representations detailing the formation mechanism of water molecules within the Leptothrix matrix. Model calculations for a two-vacancy cluster defect structure in Fe2O3 and Fe3O4 reveal lifetimes of 180 ps and 174 ps, respectively.ru
dc.language.isoenru
dc.publisherAdvanced Physical Researchru
dc.relation.ispartofseriesVol.6, No.1, 2024, pp.5-14;
dc.titleMECHANISM OF FORMATION WATER MOLECULES AND CHEMICAL BONDS IN LEPTOTHRIX MATERIALSru
dc.typeArticleru


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